/** Transforms a list of light curve names on the command line to a list of
* light curves parseable by the rest of the program.
*
* @param[in] argList a multi-value argument containing the light curve names
* @param[out] lcNameList a vector of the valid light curve names
* @param[out] lcList a vector of light curve types
*
* @post @p lcNameList.size() ≤ <tt>argList.getValue().size()</tt>
* @post @p lcList = @p std::for_each(@p lcNameList, &@ref lcmc::parse::parseLightCurve() "parseLightCurve")
*
* @exception std::bad_alloc Thrown if there is not enough memory to
* represent the light curve list.
* @exception lcmc::parse::except::NoLightCurves thrown if no valid light
* curves given
*
* @exceptsafe The arguments are unchanged in the event of an exception.
*/
void parseLcList(UnlabeledMultiArg<string>& argList,
std::vector<string>& lcNameList,
std::vector<LightCurveType>& lcList) {
using std::swap;
std::vector<string> fullLcList(argList.getValue());
// Iterate over the argument list, preserving the user-requested execution order
std::vector<string > tempNameList;
std::vector<LightCurveType> tempLcList;
for(std::vector<string>::const_iterator it=fullLcList.begin();
it != fullLcList.end(); it++) {
try {
const LightCurveType curLc = parseLightCurve(*it);
// Don't count light curves multiple times
if (find(tempLcList.begin(), tempLcList.end(), curLc)
== tempLcList.end()) {
tempNameList.push_back(*it);
tempLcList.push_back(curLc);
}
} catch(std::domain_error e) {
// If there's an invalid light curve, print a warning but keep going
fprintf(stderr, "WARNING: %s\n", e.what());
}
}
if (tempLcList.size() <= 0) {
throw except::NoLightCurves("No valid light curves given.");
// Type " + progName + " -h for a list of choices.");
}
// IMPORTANT: no exceptions past this point
// swap<vector> is guaranteed not to throw for equal allocators
// Since all vectors here use the default allocator,
// this condition is satisfied
swap(tempNameList, lcNameList);
swap( tempLcList, lcList);
}
void parseOptions ( int argc, char** argv )
{
try
{
CmdLine cmd ( "keypoints", ' ', kVersion );
MyOutput my;
cmd.setOutput ( &my );
SwitchArg aArgFullScale ( "","fullscale", "Uses full scale image to detect keypoints (default:false)\n", false );
// SURF has a better performance than the other descriptors, use it by default, if it is enabled
ValueArg<int> aArgSurfScoreThreshold ( "","surfscore", "Detection score threshold (default : 1000)\n", false, 1000, "int" );
ValueArg<int> aArgSieve1Width ( "","sievewidth", "Interest point sieve: Number of buckets on width (default : 10)", false, 10, "int" );
ValueArg<int> aArgSieve1Height ( "","sieveheight", "Interest point sieve : Number of buckets on height (default : 10)", false, 10, "int" );
ValueArg<int> aArgSieve1Size ( "","sievesize", "Interest point sieve : Max points per bucket (default : 10)\n", false, 10, "int" );
ValueArg<std::string> aArgOutputFormat ( "","format", "Output format (text, autopano-xml, descperf), default text\n", false, "text", "string" );
ValueArg<std::string> aArgOutputFile ( "o","output", "Output file. If not specified, print to standard out\n", false, "", "string" );
SwitchArg aArgInterestPoints ( "","interestpoints", "output only the interest points and the scale (default:false)\n", false );
ValueArg<std::string> aArgFixedInterestPoint ( "","ip", "Compute descriptor at x,y,scale,ori \n", false, "", "string" );
cmd.add ( aArgSurfScoreThreshold );
cmd.add ( aArgFullScale );
cmd.add ( aArgSieve1Width );
cmd.add ( aArgSieve1Height );
cmd.add ( aArgSieve1Size );
cmd.add ( aArgOutputFormat );
cmd.add ( aArgOutputFile );
cmd.add ( aArgInterestPoints );
cmd.add ( aArgFixedInterestPoint );
/*
SwitchArg aArgTest("t","test", "Enables test mode\n", false);
cmd.add( aArgTest );
*/
UnlabeledMultiArg<string> aArgFiles ( "fileName", "Image files", true, "string" );
cmd.add ( aArgFiles );
cmd.parse ( argc,argv );
//
// Set variables
//
vector<string> aFiles = aArgFiles.getValue();
if ( aFiles.size() != 1 )
{
exit ( 1 );
}
double surfScoreThreshold=1000;
if ( aArgSurfScoreThreshold.isSet() )
{
surfScoreThreshold = ( aArgSurfScoreThreshold.getValue() );
}
bool downscale = true;
if ( aArgFullScale.isSet() )
{
downscale = false;
}
int sieveWidth = 10;
if ( aArgSieve1Width.isSet() )
{
sieveWidth = aArgSieve1Width.getValue();
}
int sieveHeight = 10;
if ( aArgSieve1Height.isSet() )
{
sieveHeight = aArgSieve1Height.getValue();
}
int sieveSize = 10;
if ( aArgSieve1Size.isSet() )
{
sieveSize = aArgSieve1Size.getValue();
}
bool onlyInterestPoints = false;
if ( aArgInterestPoints.isSet() )
{
onlyInterestPoints = true;
}
std::ostream* outstream;
if ( aArgOutputFile.isSet() )
{
outstream = new std::ofstream(aArgOutputFile.getValue().c_str());
}
else
{
outstream = & std::cout;
}
KeypointWriter* writer = 0;
std::string outputformat = "text";
if ( aArgOutputFormat.isSet() )
{
outputformat = aArgOutputFormat.getValue();
}
if (outputformat == "text")
{
writer = new SIFTFormatWriter(*outstream);
}
else if (outputformat == "autopano-sift-xml")
{
writer = new AutopanoSIFTWriter(*outstream);
}
else if (outputformat == "descperf")
{
writer = new DescPerfFormatWriter(*outstream);
}
else
{
std::cerr << "Unknown output format, valid values are text, autopano-sift-xml, descperf" << std::endl;
exit(1);
}
KeyPointPtr preKPPtr;
if ( aArgFixedInterestPoint.isSet() )
{
preKPPtr = KeyPointPtr(new KeyPoint());
preKPPtr->_x = -10001;
preKPPtr->_ori = -10001;
int nf = sscanf(aArgFixedInterestPoint.getValue().c_str(), "%lf:%lf:%lf:%lf",
&(preKPPtr->_x), &(preKPPtr->_y), &(preKPPtr->_scale), &(preKPPtr->_ori));
std::cerr << "passed orientation: " << preKPPtr->_ori << std::endl;
if (nf < 3)
{
std::cerr << "Invalid value for --ip option, expected --ip x:y:scale:ori" << std::endl;
exit(1);
}
}
DetectKeypoints ( aFiles[0], downscale, surfScoreThreshold, preKPPtr, onlyInterestPoints, sieveWidth, sieveHeight, sieveSize, *writer );
if ( aArgOutputFile.isSet() )
{
delete outstream;
}
}
catch ( ArgException& e )
{
cout << "ERROR: " << e.error() << " " << e.argId() << endl;
}
}
